Objective To investigate the effect of axial stress stimulation on tibial and fibular open fractures healing after Taylor space stent fixation. Methods The data of 45 cases with tibial and fibular open fractures treated by Taylor space stent fixation who meet the selection criteria between January 2015 and June 2016 were retrospectively analysed. The patients were divided into trial group (23 cases) and control group (22 cases) according to whether the axial stress stimulation was performed after operation. There was no significant difference in gender, age, affected side, cause of injury, type of fracture, and interval time from injury to operation between 2 groups (P>0.05). The axial stress stimulation was performed in trial group after operation. The axial load sharing ratio was tested, and when the value was less than 10%, the external fixator was removed. The fracture healing time, full weight-bearing time, and external fixator removal time were recorded and compared. After 6 months of external fixator removal, the function of the limb was assessed by Johner-Wruhs criteria for evaluation of final effectiveness of treatment of tibial shaft fractures. Results There were 2 and 3 cases of needle foreign body reaction in trial group and control group, respectively, and healed after symptomatic anti allergic treatment. All the patients were followed up 8-12 months with an average of 10 months. All the fractures reached clinical healing, no complication such as delayed union, nonunion, or osteomyelitis occurred. The fracture healing time, full weight-bearing time, and external fixator removal time in trial group were significantly shorter than those in control group (P<0.05). After 6 months of external fixator removal, the function of the limb was excellent in 13 cases, good in 6 cases, fair in 3 cases, and poor in 1 case in trial group, with an excellent and good rate of 82.6%; and was excellent in 5 cases, good in 10 cases, fair in 4 cases, and poor in 3 cases in control group, with an excellent and good rate of 68.2%, showing significant difference between 2 groups (Z=–2.146, P=0.032). Conclusion The axial stress stimulation of Taylor space stent fixation can promote the healing of tibial and fibular open fractures and promote local bone formation at fracture site.
Twenty-three cases of severeopen commiunted fractures of thetibia and fibula were treated byexternal skelatal fixation and skinflaps.The skin defects were repairedby the facio-cutaneous flaps, themusculo-cutanecus flap of the gast-rocnemius muscle or the vascularizedosteo-cutaneous flap of the ilium.Seventeen cases were followed-upfor an average of 13 months.Clinicalbony union was obtained in anaverage of 110 days. The authorsrecommended that it was a satisfact-ory method of traetment if a thoroughdebridment, reduction and fixation of the fracture by external skeletal fixation and repaire of wound and the skin defects by tissues flaps were carried out.
Objective To determine the effectiveness and the safety of the Taylor spatial frame in treatment of intermediate or distal tibiofibula fractures. Methods The clinical data of 74 patients with intermediate or distal tibiofibular fractures treated between January 2015 and January 2017 were retrospectively analyzed. According to fixation methods, they were divided into internal fixation group (26 cases) and external fixation group (48 cases). There was no significant difference in the age, gender, cause of injury, type of fracture, time from injury to operation between 2 groups (P>0.05). The intraoperative blood loss, fracture healing time, fixator removal time, and complications were recorded and compared. The final function evaluation criteria of Johner-Wruhs humeral shaft fracture were used to evaluate the function of the affected limb. The lower limb force line recovery after operation was evaluated according to the standard evaluation of LUO Congfenget al. Results Both groups were followed up 6-22 months (median, 14 months). All patients obtained the fracture healing. The intraoperative blood loss, fracture healing time, and fixator removal time were significantly higher in the internal fixation group than those in the external fixation group (P<0.05). There were 1 case of plate exposure, 1 case of delayed fracture healing, and 1 case of plate fracture in the internal fixation group; and there were 2 cases of delayed fracture healing and 4 cases of soft tissue defect in the external fixation group; no significant difference was found in the incidence of complications between 2 groups (χ2=0.015, P=0.904). The function of the affected limb was evaluated by Johner-Wruhs standard at 10 months after operation, the results was excellent in 19 cases, good in 5 cases, and fair in 2 cases in the internal fixation group, with an excellent and good rate of 92.3%; the results was excellent in 42 cases, good in 3 cases, and fair in 2 cases in the external fixation group, with an excellent and good rate of 95.7%; showing no significant difference between 2 groups (χ2=0.392, P=0.531). The lower limb force line recovery after operation was evaluated according to the standard evaluation of LUO Congfeng et al.at 4 months after operation, the results was excellent in 24 cases, fair in 1 case, poor in 1 case in the internal fixation group, with an excellent and good rate of 92.3%; the results was excellent in 46 cases, fair in 1 case, poor in 1 case in the external fixation group, with an excellent and good rate of 95.8%; showing no significant difference between 2 groups (χ2=0.520, P=0.471). Conclusion The use of Taylor spatial frame in the treatment of the intermediate or distal tibiofibular fractures can obviously reduce the healing time and complications than the internal fixation of the plate. It can reduce the fracture treatment cycle and is beneficial to the fracture healing and limb function recovery, which is relatively safe and reliable.
ObjectiveTo evaluate the effects of dynamization of external fixation on open tibia and fibula fracture union.MethodsThe clinical data of 26 cases of open tibia and fibula fractures treated by external fixation were retrospectively analysed. According to different postoperative treatment methods, the patients were divided into elastic dynamic group (group A, n=13) and constant elastic fixation group (group B, n=13). There was no significant difference in gender, age, and fracture type between 2 groups (P>0.05). The removal time of external fixator in group B was evaluated by fracture healing time, X-ray film, and doctor’s experience. In group A, the growth of callus was examined based on X-ray film at 12 weeks after operation; the axial mechanical load ratio was tested, and dynamic loading was carried out when the axial mechanical load ratio was 5%-10%. The using time of external fixator, fracture healing time, and incidence of complications were compared between 2 groups.ResultsAll patients were followed up 4-13 months, with an average of 5.7 months. During the treatment, there was no complication such as loosening or breaking of the external fixator, fracture displacement, or re-fracture in 2 groups. The using time of external fixator in group A was (24.77±1.42) weeks and the fracture healing time was (23.04±1.30) weeks, which were all significantly reduced when compared with those in group B [(34.38±1.71) weeks and (32.46±1.66) weeks] (t=16.10, P=0.00; t=15.58, P=0.00). In group A, there were 2 cases of needle tract infection and 1 case of muscle weakness, the incidence of complication was 23.1%; in group B, there were 3 cases of needle tract infection, 1 case of muscle weakness, and 1 case of delayed union of fracture, the incidence of complication was 38.5%; there was no significant difference in the incidence of complication between 2 groups (P=1.000).ConclusionDynamization of external fixation can promote union of open tibia and fibula fractures with a high security.
ObjectiveTo explore a new method of treating serious tibiofibula comminuted fracture by using three-dimensional (3-D) printing personalized external fixator. MethodsIn April 2015, a male patient (aged 18 years with a height of 171 cm and a weight of 67 kg) with left tibiofibula comminuted fracture was included in the study. Computer-assisted reduction technique combined with 3-D printing was used to develop a customised personalized external fixator for fracture reduction. The effectiveness was observed. ResultsThe operation time was about 10 minutes without fluoroscopy, and successful reduction was obtained. The patient had equal limb length after operation. X-ray films showed that the posterior angulation of distal fracture was corrected 37°, and the eversion angle was corrected 4°. The tibial fractures had good paraposition or alignment, and the lower limb force line was corrected completely. No new fracture displacement occurred. The clinical healing time of fracture was 3.5 months and the bone union was achieved after 8 months. The function of affected limb recovered well after operation. ConclusionA personalized external fixator for serious tibiofibula comminuted fracture reduction made by 3-D printing technique has the merits of easy manipulation, high individuation, accurate reduction, stable fixation, and no need of fluoroscopy.
ObjectiveTo explore the effectiveness of using antibiotic bone cement-coated plates internal fixation technology as a primary treatment for Gustilo type ⅢB tibiofibular open fractures. Methods The clinical data of 24 patients with Gustilo type ⅢB tibiofibular open fractures who were admitted between January 2018 and December 2021 and met the selection criteria was retrospectively analyzed. Among them, there were 18 males and 6 females, aged from 25 to 65 years with an average age of 45.8 years. There were 3 cases of proximal tibial fracture, 6 cases of middle tibial fracture, 15 cases of distal tibial fracture, and 21 cases of fibular fracture. The time from injury to emergency surgery ranged from 3 to 12 hours, with an average of 5.3 hours. All patients had soft tissue defects ranging from 10 cm×5 cm to 32 cm×15 cm. The time from injury to skin flap transplantation for wound coverage ranged from 1 to 7 days, with an average of 4.1 days, and the size of skin flap ranged from 10 cm×5 cm to 33 cm×15 cm. Ten patients had bone defects with length of 2-12 cm (mean, 7.1 cm). After emergency debridement, the tibial fracture end was fixed with antibiotic bone cement-coated plates, and the bone defect area was filled with antibiotic bone cement. Within 7 days, the wound was covered with a free flap, and the bone cement was replaced while performing definitive internal fixation of the fracture. In 10 patients with bone defect, all the bone cement was removed and the bone defect area was grafted after 7-32 weeks (mean, 11.8 weeks). The flap survival, wound healing of the affected limb, complications, and bone healing were observed after operation, and the quality of life was evaluated according to the short-form 36 health survey scale (SF-36 scale) [including physical component summary (PCS) and mental component summary (MCS) scores] at 1 month, 6 months after operation, and at last follow-up. ResultsAll 24 patients were followed up 14-38 months (mean, 21.6 months). All the affected limbs were successfully salvaged and all the transplanted flaps survived. One case had scar hyperplasia in the flap donor site, and 1 case had hypoesthesia (grade S3) of the skin around the scar. There were 2 cases of infection in the recipient area of the leg, one of which was superficial infection after primary flap transplantation and healed after debridement, and the other was sinus formation after secondary bone grafting and was debrided again 3 months later and treated with Ilizarov osteotomy, and healed 8 months later. The bone healing time of the remaining 23 patients ranged from 4 to 9 months, with an average of 6.1 months. The scores of PCS were 44.4±6.5, 68.3±8.3, 80.4±6.9, and the scores of MCS were 59.2±8.2, 79.5±7.8, 90.0±6.6 at 1 month, 6 months after operation, and at last follow-up, respectively. The differences were significant between different time points (P<0.05). ConclusionAntibiotic bone cement-coated plates internal fixation can be used in the primary treatment of Gustilo type ⅢB tibiofibular open fractures, and has the advantages of reduce the risk of infection in fracture fixation, reducing complications, and accelerating the functional recovery of patients.
目的 探讨应用经皮接骨板固定技术（MIPPO）结合锁定钢板（LCP）固定治疗胫腓骨骨折的疗效。 方法 2009年11月－2012年1月应用MIPPO技术结合LCP固定治疗胫腓骨干骨折62例。其中男42例，女20例；年龄16～85岁，平均45岁。骨折按AO分型：A1型10例，A2型3例，A3型3例，B1型18例，B2型8例，B3型4例，C1型10例，C2型5例，C3型1例。闭合骨折47例；开放骨折15例，根据Gustilo-Anderson分型，Ⅰ型8例，Ⅱ型6例，ⅢA型1例。伤后内固定时间3 h～10 d，平均6 d。 结果 开放骨折有3例伤口Ⅱ期愈合，其中1例伤口皮缘坏死，1例钢板部分外露经换药和清创减张缝合后伤口愈合，1例骨外露经皮瓣转移愈合；其余患者术后伤口均Ⅰ期愈合。62例均获随访，随访时间6～16个月，平均9个月。无感染、神经损伤、骨筋膜室综合征发生。术后2～4个月骨折均愈合。根据Johner-Wruhs疗效评价，优48例，良14例；开放性骨折15例中优10例，良5例。 结论 MIPPO技术结合LCP固定治疗胫腓骨干骨折，具有创伤小、骨折愈合快等优点。
目的:对同侧胫腓骨骨折、髋关节骨折后脱位合并膝后交叉韧带损伤的创伤机制及诊断进行分析探讨。方法:对2007年1月至2008年6月收治的7例同侧胫腓骨骨折、髋关节骨折后脱位合并膝后交叉韧带损伤患者的临床资料、诊治经过和随访结果进行总结分析。结果: 胫腓骨开放性骨折3例(42.9%),闭合性骨折4例(57.1%);髋关节均有后脱位,其中伴有髋部骨折5例(71.4%)。膝后交叉韧带实质部断裂4例(57.1%),胫骨止点撕脱骨折3例(42.9%)。7例患者获平均14.7个月(12～18个月)随访。Lysholm膝关节功能评分术后6月95.8±3.71,术后12月97.6±2.7。结论:明确同侧胫腓骨骨折、髋关节骨折后脱位合并膝后交叉韧带损伤的创伤机制,全面、准确、系统的问诊查体和完善的辅助检查是早期确诊、提高疗效的关键。